Adjustable fish-supporting photographic rack assembly

ABSTRACT

An easy-to-assembly adjustable fish-supporting photographic rack assembly particularly well-suited for temporarily supporting a catch of fish in a highly organized manner during the taking of a photograph or digital image thereof has snap-fit structure that includes a main tubular framework body supporting a plurality of fish-supporting hooks, an upper tubular framework member snap-fitted to an upper end of the main tubular framework body, a pair of support stanchions snap fitted to a lower end of the main tubular framework body, and a banner affixed to and spanning the main tubular framework body and the upper tubular framework member.

CROSS-REFERENCE TO RELATED APPLICATIONS

This application is a continuation-in-part of U.S. non-provisional patent application Ser. No. 17/103,675, filed on Nov. 24, 2020, which is a continuation-in-part of U.S. non-provisional patent application Ser. No. 16/531,916, filed on Aug. 5, 2019, which is a continuation-in-part of U.S. non-provisional patent application Ser. No. 16/020,454, filed on Jun. 27, 2018, which claims the benefit of U.S. provisional patent application No. 62/525,251, filed on Jun. 27, 2017, each of which is incorporated-by-reference herein in its entirety.

FIELD OF THE INVENTION

The present disclosure relates generally to the temporary hanging of a catch of fish for picture taking of the catch alongside one or more anglers, and more particularly to structures used for this purpose.

BACKGROUND OF THE INVENTION

Recreational fishing, also called sport fishing, is fishing for pleasure or competition. It can be contrasted with commercial fishing, which is fishing for profit, or subsistence fishing, which is fishing for survival. The most common form of recreational fishing is done with a rod, reel, line, hooks and one or more of a wide range of baits and lures. Recreational fisherman typically fish from either a boat of their own or, alternatively, from a charter boat. In the case of charter boat fishing, anglers elect to pay a charter boat operator—often the owner of the charter boat—to take them fishing. Charter boat fishing is often advantageous, since a charter boat operator (and accompanying crew members) will generally be more highly skilled at fishing than the anglers chartering the boat. Furthermore, in light of their experience, charter boat operators are often more successful finding fish to catch.

In the case of charter boat fishing, at the end of a fishing charter it is commonplace for the charter boat operator to arrange a catch of fish caught by anglers in order to enable the anglers (with or without the fishing charter operator and crew) to take pictures with their catch. Oftentimes, the fish are simply laid out on a dock and/or held by the anglers in preparation of a picture. In other instances, the catch of a fish may be temporarily hung from a length of cord, a series of nails hammered into a piece of wood, a series of large hooks hanging from a horizontal rod or similar structure, and the like. In the case of cord, one end may be tied around the fish's tail (or through the fish's mouth and gill) and the opposite end secured to a raised horizontally-oriented supported beam, such as a length of wood (e.g. a 2×4), typically in a less-than-orderly manner. In the case of nails and hooks, such hardware is typically attached to a similar raised horizontally-oriented supported length of wood or, alternatively, hooks are sometimes providing hanging from a raised, horizontally-oriented supported length of metal pipe or other conduit. In all instances, the resulting structures are generally fashioned in a very crude and non-aesthetically pleasing manner. In the case of anglers fishing from their own boats, there is an abysmal choice of portable structures to enable such “weekend warriors” to hang their own catch in a neat and orderly manner conducive to picture taking. Developments in this area have been limited to very crude portable fish-supporting products. Generally, such portable fish-supporting products have been limited to not much more than a length of wood having fish hanging mechanisms (e.g. nail and hooks) attached in a spaced-apart manner along the length of wood. Furthermore, such products require at least two individuals to support opposite ends of the length of wood a distance above the ground surface, and a third individual to take a picture. Generally speaking, there has been a complete lack of development in the area of such fish-supporting structures that are portable, easy to install and use, and that are constructed with the intent to provide an aesthetically pleasing backdrop for the aforementioned picture taking function.

Accordingly, there is a long felt, as of yet unmet, need for an improved fish-supporting apparatus particularly well-suited for facilitating the taking of pictures of anglers with their catch of fish, wherein the catch of fish are arranged in an organized manner and wherein the organized arrangement of fish in combination with an aesthetically pleasing stanchion-type structure, provide a means for anglers to take high quality pictures with their catch of fish. It would be further desirable to provide such a fish-supporting stanchion incorporating fish-supporting components (e.g. hooks) that are assembled in a manner enabling adjustability of position and orientation thereof into a preferred arrangement, depending upon factors such as the quantity of fish being supported and the relative sizes of the respective fish. In particular, it would be beneficial to be able to adjust the quantity of hooks, the spacing, or gap, between adjacent hooks, as well as to selectively rotate and/or retract individual hooks (e.g. rotating/retracting unused hooks so that they are not facing outward in an unsafe manner). It would be further desirable to provide such an adjustable fish-supporting photographic rack assembly having a sturdy, easily assembled and disassembled structure having a construction conducive to exposure to a saltwater environment without suffering from structural aesthetic degradation from such exposure. It would be highly beneficial to have such an adjustable fish-supporting photograph rack assembly incorporating an optional selectively-attachable advertising banner structure for enabling additional advertising (e.g. for advertising contact information pertaining to the charter boat operator). It would be preferable for the rack assembly to include at least one permanent surface area sized, shaped and located, upon a highly visible front surface of the photographic rack assembly to provide permanent marketing and/or advertising graphics pertaining, for example, to the source of the photographic rack assembly (including, for example, a corresponding product brand/trademark, product manufacturer contact information to order the product and related accessories, etc.).

Moreover, it is preferred that the fish-supporting photographic rack assembly itself has a size, shape and construction that is conducive to enabling one or more anglers to stand behind the rack in a visible manner while a picture is being taken, with the fish and any such advertising or other information prominently displayed in a highly aesthetically-pleasing fashion.

SUMMARY OF THE INVENTION

The present disclosure is generally directed to an adjustable fish-supporting photographic rack assembly particularly suited for temporarily supporting/hanging a catch of fish in an organized manner while creating a photograph or digital image thereof, wherein the adjustable fish-supporting photographic rack assembly includes:

-   -   a main panel body having a front surface, a rear surface, left         and right edges, and upper and lower edges;     -   at least one structural feature integrated into the front         surface of the main panel body;     -   at least one fish-supporting hook member; and     -   at least one hook-receiving structure for selectively coupling         said at least one fish-supporting hook member to said main panel         body front surface.

In an aspect, the at least one fish-supporting hook member and the at least one hook-receiving structure may engage one another in a manner enabling the fish-supporting hook member to be selectively adjusted between an open, fish-supporting, position and a closed position. In the closed position, the fish-supporting hook member may, for example, be maintained either rotated into an orientation wherein substantially the entire length of the hook member, or the hook body, butts up against the main panel body front surface to prevent the sharp fish-supporting end of the hook member from jutting outward. Alternatively, in the closed position the fish-supporting hook member may be fully retracted into a main panel body cavity.

In another aspect, a pair of main panel body supports may be provided sized, shaped and otherwise configured for engagement with the main panel body in order to securely maintain the main panel body in a vertically-oriented upright manner. Furthermore, each main panel body support may include a depression sized and shaped for snugly receiving a corresponding one of the lower corners of the main panel body therein. Still further, an aperture may be provided extending through a lower surface of the depression for receiving a mechanical fastener to fixedly attach the main body panel support to an underlying supporting ground surface (e.g., a wooden dock). Still further, each main panel body support may be hollow and include a selectively accessible sealable port for enabling the controlled ingress and egress of a weight providing material (e.g. sand, water, etc.).

In another aspect, a banner advertising subassembly may be provided configured to be selectively mounted upon the main panel body upper edge by at least one support post affixed to the banner and configured for releasable coupling with one or more corresponding apertures extending into the main body panel upper edge.

In another aspect, the at least one structural feature integrated into the front surface of the main panel body may be a laterally-oriented dovetail groove extending between the left and right edges of the main panel body, and the at least one hook-receiving structure for selectively coupling the at least one fish-supporting hook member to the main panel body front surface may be a unitary laterally-extending member slidably-receivable within the dovetail groove such that a forward portion of the laterally-extending member juts out slightly beyond the main panel body front surface and incorporates a laterally-extending T-shaped channel extending into a bottom surface thereof for slidably-receiving the at least one hook member therein.

In another aspect, the at least one structural feature integrated into the front surface of the main panel body may be a laterally-oriented dovetail groove extending between the left and right edges of the main panel body, and the at least one hook-receiving structure for selectively coupling the at least one fish-supporting hook member to the main panel body front surface may be a plurality of individual block members sized, shaped and otherwise configured for being slidably-received within the laterally-oriented dovetail groove and having a corresponding fish-supporting hook member securely affixed thereto, wherein the hook member preferably extends outwardly, and depending downwardly, therefrom. In this manner, individual hook-supporting blocks may be selectively translated along the dovetail groove to corresponding desired locations along the corresponding dovetail groove.

In another aspect, the at least one hook-receiving structure for selectively coupling the at least one hook-supporting member to the main panel body front surface may be a hook-supporting bracket member affixed to the main panel body front surface.

In another aspect, the hook-receiving structure for selectively coupling the at least one hook-supporting member to the main panel body front surface may include at least one selectively-pivotable, rotationally-biased hook subassembly mounted within at least one panel body cavity provided extending into the main panel body front surface. For example, rotational bias of the hook may be accomplished via a torsion spring biasing rotation of the hook about a hook-support pin at least partially laterally spanning the at least one panel body cavity.

In another aspect, the at least one structural feature integrated into the front surface of the main panel body may include at least one aperture, the fish-supporting hook member may include an externally-threaded end portion, and the at least one hook-receiving structure for selectively coupling the at least one fish-supporting hook member to the main panel body front surface may be a mechanical barrel member having a threaded internal surface for threadingly engaging the corresponding externally threaded end portion of the fish-supporting hook member.

In another aspect, at least the main panel body, and preferably all of the components of the assembly, has a composition and construction that is resistant to degradation from harsh environmental conditions such as, for example, sunlight and salt water. Examples of such materials include, but are not limited to, fiber-reinforced plastics (such as fiberglass), marine grade metals (e.g., carbon steel, alloy steel, stainless steel and galvanized steel), marine grade polymers, and marine grade wood, to name just a few).

In accordance with an alternative implementation, an adjustable fish-supporting photographic rack assembly may be provided, comprising:

-   -   a tubular framework including a horizontal framework member         having left and right ends, the horizontal framework member left         end interconnected to a downwardly-extending left vertical         framework member, the horizontal member right end interconnected         to a downwardly-extending right vertical framework member;     -   left and right support bases sized and configured for receiving         distal ends of respective ones of said downwardly-extending left         and right vertical framework members, the left and right support         bases configured to securely support the adjustable         fish-supporting photographic rack assembly upon an underlying         ground support surface;     -   at least one horizontally-oriented hook rod assembly rotatably         secured at opposite left and right ends thereof to respective         ones of the downwardly-extending left and right vertical         framework members, the at least one horizontally-oriented hook         rod assembly including a horizontally-oriented hook rod having a         plurality of spaced-apart fish-supporting hook members         projecting outwardly therefrom, the at least one         horizontally-oriented hook rod assembly rotatable about a first         rotational axis (X₁) between a stowed position (FIG. 27 ) and a         forwardly-rotated fish-supporting position (FIG. 30 );     -   at least one pair of left and right support members secured to         respective ones of the downwardly-extending left and right         vertical framework members, the left support member positioned         to engage the corresponding left end of the         horizontally-oriented hook rod, and the right support member         positioned to engage the corresponding right end of the         horizontally-oriented hook rod, when the at least one         horizontally-oriented linear hook rod assembly is forwardly         rotated into the fish-supporting position (FIG. 30 ), the left         and right support members supporting the at least one         horizontally-oriented hook rod assembly in the forwardly-rotated         fish-supporting position; and     -   a central panel having a periphery attached to the tubular         framework, the central panel disposed behind the at least one         horizontally-oriented hook rod assembly, thereby functioning as         an aesthetic backdrop while taking a photograph or digital image         during use of the adjustable fish-supporting photographic rack         assembly.

In another aspect, the tubular framework may include a left curved framework member interconnecting the left end of the horizontal framework member to an upper end of the downwardly-extending left vertical framework member, and a right curved framework member interconnecting the right end of the horizontal framework member to an upper end of the downwardly-extending right vertical framework member.

In another aspect, the downwardly-extending left vertical framework member may include a left pair of upper and lower fastener openings extending therethrough, and the downwardly-extending right vertical framework member may have a corresponding right pair of upper and lower fastener openings extending therethrough, wherein the lower fastener opening of the left pair and the lower fastener opening of the right pair are aligned along the first rotational axis.

In another aspect, the left and right support members may have a unitary construction, including:

-   -   a vertically-oriented cylindrical collar portion extending         between opposite upper and lower ends thereof, the         vertically-oriented cylindrical collar portion having a pair of         upper and lower fastener openings extending therethrough;     -   a vertical planar wall portion spanning the opposite upper and         lower ends of the vertically-oriented cylindrical collar portion         and projecting radially outward therefrom; and     -   a generally horizontal planar wall portion projecting laterally         from a lower end of the vertical planar wall portion defining a         support surface for the horizontally-oriented hook rod, when the         horizontally-oriented hook rod assembly is forwardly rotated         into the fish-supporting position (FIG. 30 ).

In another aspect, an upper surface of the generally horizontal planar wall portion may be slightly upwardly sloped, at a desired slope angle, in a direction from an upper surface rear edge to an upper surface front edge thereof, wherein the slight upward slope functions to support the corresponding horizontally-oriented hook rod assembly at the slope angle such that the plurality of spaced-apart fish-supporting hook members have a slight upward projection (equal to said slope angle) in a direction away from the horizontally-oriented hook rod in order to prevent the supported fish from inadvertently coming loose and falling.

In another aspect, the pair of upper and lower fastener openings extending through the left support member align with the corresponding upper and lower fastener openings extending through the downwardly-extending left vertical framework member, and the pair of upper and lower fastener openings extending through the right support member align with the corresponding upper and lower fastener openings extending through the downwardly-extending right vertical framework member, when the adjustable fish-supporting photographic rack assembly is in a fully-assembled state.

In another aspect, each of the left and right support bases may further include:

-   -   a planar base portion having a pair of fastener openings         extending therethrough;     -   a vertical connector tube extending upwardly from an upper         surface of the planar base portion, the vertical connector tube         defining an interior channel sized and shaped for receiving a         lower end of a respective one of the left and right vertical         framework members therein; and     -   a pair of interconnecting plates extending laterally from         opposite left and right sides of the vertical connector tube and         interconnecting the opposite left and right sides of the         vertical connector tube with the upper surface of the planar         base portion.

In accordance with an alternative implementation, an easy-to-assembly adjustable fish-supporting photographic rack assembly may be provided having a snap-fit assembly structure, comprising:

-   -   a main tubular framework body having a plurality of spaced-apart         fish-supporting hooks extending outwardly therefrom, the main         tubular framework body defining a lower interior framework         opening;     -   an upper tubular framework member releasably attached to an         upper end of the main tubular framework body to define an upper         interior framework opening;     -   a pair of spaced-apart left and right support stanchions         releasably attached to a lower end of the main tubular framework         body; and     -   a banner in the form of a banner in the form of a flexible panel         affixed to the main tubular framework body and the upper tubular         framework member, such that an upper banner portion spans the         upper interior framework opening and a lower banner portion         spans the lower interior framework opening.

These and other features, aspects, and advantages of the invention will be further understood and appreciated by those skilled in the art by reference to the following written specification, claims and appended drawings.

BRIEF DESCRIPTION OF THE DRAWINGS

The invention will now be described, by way of example, with reference to the accompanying drawings, where like numerals denote like elements and in which:

FIG. 1 presents a top-front-right isometric view of an adjustable fish-supporting photographic rack assembly in a fully assembled state (with mountable display apparatus 180 shown slightly exploded to expose receiving apertures 116) in accordance with a first exemplary implementation of the invention;

FIG. 2 presents an exploded view of the adjustable fish-supporting photographic rack assembly shown in FIG. 1 (with mountable display apparatus 180 and fishing rods 190 removed for clarity);

FIG. 3 present a front elevation view of the adjustable fish-supporting photographic rack assembly introduced in FIG. 2 (shown in a fully assembled state);

FIG. 4 presents a right-side elevation view of the adjustable fish-supporting photographic rack assembly shown in FIG. 3 ;

FIG. 5A presents a top-front-right isometric view of a lateral hook-supporting member 150 of the adjustable fish-supporting photographic rack assembly 100 shown in FIGS. 1-4 ;

FIG. 5B presents a magnified detailed view of laterally-extending T-shaped channel 160 of the laterally-extending hook-supporting member 150 shown in FIG. 5A;

FIG. 6A presents a top-front-right isometric view of the adjustable fish-supporting photographic rack assembly shown in FIGS. 3-4 ;

FIG. 6B presents a magnified detailed view of unitary fish-supporting hook component 170 of FIG. 6A, further illustrating a protective safety covering cap 175 disposed over a pointed end of the hook component;

FIG. 7 presents a top-front-right perspective view of a second exemplary implementation of the adjustable fish-supporting photographic rack assembly of the present invention, illustrating the sliding insertion of individual hook-retaining blocks 250 into respective upper and lower laterally-extending dovetail grooves, 220 and 230;

FIG. 8 presents a right-side elevation view of the adjustable fish-supporting photographic rack assembly shown in FIG. 7 (in a fully assembled state);

FIG. 9A presents a top-front-right perspective view of a third exemplary implementation of an adjustable fish-supporting photographic rack assembly in accordance with the invention;

FIG. 9B presents a magnified detailed view of the hook-supporting bracket member 320 shown in FIG. 9A (with unitary fish-supporting hook member 370 shown slightly raised for clarity);

FIG. 10 presents a front elevation view of the adjustable fish-supporting photographic rack assembly shown in FIG. 9 (further including depictions of individual fish-supporting hook members 370 shown rotated to the left 370A and to the right 370B);

FIG. 11 presents an enlarged top-front-right isometric view of the hook-supporting bracket member 320 shown in FIGS. 9, 9A and 10 ;

FIG. 12A presents a top-front-right isometric view of a fourth exemplary implementation of an adjustable fish-supporting photographic rack assembly in a partially assembled state, wherein a sampling of selectively pivotable hook subassemblies 420 are shown in various states of assembly and position (i.e., open and closed);

FIG. 12B presents a magnified view of the selectively-pivotable hook subassembly 420 shown as an exploded view in FIG. 12A;

FIG. 13 presents a top-front-right isometric view of a fifth exemplary implementation of an adjustable fish-supporting photographic rack assembly in a partially assembled state;

FIG. 14 presents a top-front-left isometric view of a sixth exemplary implementation of an adjustable fish-supporting photographic rack assembly in an assembled state;

FIG. 15 presents a partially exploded view of the fish-supporting photographic rack assembly shown in FIG. 14 ;

FIG. 15A presents an enlarged view of the hook member 640 shown in FIGS. 14 and 15 ;

FIG. 15B presents an enlarged view of the bolt 652 used to secure the central panel 630 to the framework 602 of the fish-supporting photographic rack assembly shown in FIGS. 14 and 15 ;

FIG. 15C presents an enlarged view of the nut 650 used to secure the hook member 640 on to the central panel 630 of fish-supporting photographic rack assembly shown in FIGS. 14 and 15 ;

FIG. 16 presents a longitudinal cross-sectional planar view of the fish-supporting photographic rack assembly taken along line 16-16 as shown on FIG. 14 ;

FIG. 17 presents a top-front-left isometric view of the sixth exemplary implementation of the adjustable fish-supporting photographic rack assembly in a partially assembled state;

FIG. 18 presents an enlarged view of the hook member 640 as shown on FIGS. 14-17 ;

FIG. 19 presents a top-front-left isometric view of the sixth exemplary implementation of the adjustable fish-supporting photographic rack;

FIG. 20 presents a top-front-left isometric view of the sixth exemplary implementation of the adjustable fish-supporting photographic rack with a variety of fish hanging from hook member 640;

FIG. 21 presents a top-front-left isometric view of a seventh exemplary implementation of an adjustable fish-supporting photographic rack assembly in an exploded state (with the exception of rotating hook rod 960, which is shown seated within retaining panel 940);

FIG. 22 presents a top-front-left isometric view of the adjustable fish-supporting photographic rack assembly introduced in FIG. 21 shown in a fully-assembled state with all three rows of hooks shown in a deployed state ready to hold fish (including an upper strip 995 for closing the upper gap between the front display panel 980 and rear display panel 990);

FIG. 23 presents a left side elevation view of the assembled rack assembly introduced in FIG. 22 ;

FIG. 24 presents a top-rear-right isometric view of the rack assembly of FIG. 22 ;

FIG. 25 presents top-front-left isometric view of a hook rod-retaining lateral beam in accordance with the present invention;

FIG. 26 presents a top-front-left isometric view of a rotatable hook rod in accordance with the present invention;

FIG. 26 a presents an enlarged view of an individual fish-supporting hook 966 welded to a flat surface portion 963 of rotatable hook rod main body 962 in accordance with the present invention;

FIG. 27 presents a top-front-left isometric view of an adjustable fish-supporting photographic rack assembly in a fully-assembled state, in accordance with another exemplary implementation of the invention;

FIG. 28 presents an exploded view of the adjustable fish-supporting photographic rack assembly shown in FIG. 27 ;

FIG. 28A presents an enlarged view of left rotatable hook rod assembly support member 1070B;

FIG. 29 presents a front elevation view of the fully-assembled adjustable fish-supporting photographic rack assembly introduced in FIG. 27 ;

FIG. 30 presents a right-side elevation view of the adjustable fish-supporting photographic rack assembly shown in FIG. 29 ;

FIG. 31 presents a top-front-left isometric exploded view of an adjustable fish-supporting photographic rack assembly, in accordance with another exemplary implementation of the invention;

FIG. 32 presents a top-front-left isometric view of the adjustable fish-supporting photographic rack assembly of FIG. 31 , shown in a fully-assembled state;

FIG. 33 presents a top plan view of the adjustable fish-supporting photographic rack assembly of FIG. 32 ; and

FIG. 34 presents a front plan view of the adjustable fish-supporting photographic rack assembly of FIG. 32 .

Like reference numerals refer to like parts throughout the various views of the drawings.

DETAILED DESCRIPTION OF EXEMPLARY IMPLEMENTATIONS

The following detailed description is merely exemplary in nature and is not intended to limit the described embodiments or the application and uses of the described embodiments. As used herein, the word “exemplary” or “illustrative” means “serving as an example, instance, or illustration.” Any implementation described herein as “exemplary” or “illustrative” is not necessarily to be construed as preferred or advantageous over other implementations. All of the implementations described below are exemplary implementations provided to enable persons skilled in the art to make or use the embodiments of the disclosure and are not intended to limit the scope of the disclosure, which is defined by the claims. For purposes of description herein, the terms “upper”, “lower”, “left”, “rear”, “right”, “front”, “vertical”, “horizontal”, and derivatives thereof shall relate to the invention as oriented in FIG. 1 . Furthermore, there is no intention to be bound by any expressed or implied theory presented in the preceding technical field, background, brief summary or the following detailed description. It is also to be understood that the specific devices and processes illustrated in the attached drawings, and described in the following specification, are simply exemplary embodiments of the inventive concepts defined in the appended claims. Hence, specific dimensions and other physical characteristics relating to the embodiments disclosed herein are not to be considered as limiting, unless the claims expressly state otherwise.

Referring to FIGS. 1-13 , various exemplary implementations of a portable, adjustable fish-supporting photographic rack assembly are shown in accordance with the present invention. Generally, the various implementations of the assembly overcome at least the aforementioned long-standing drawbacks, disadvantages and limitations of conventional known structures used for temporarily displaying a catch of fish.

Referring initially to FIGS. 1-6 , in accordance with a first exemplary implementation of the present invention, an adjustable fish-supporting photographic rack assembly is shown generally as reference numeral 100. Rack assembly 100 includes a main panel body 102 having a front surface 104, a rear surface 106, an upper edge 108, a lower edge 110, a left edge 112 and a right edge 114. As will be apparent to those skilled in the art, although main panel body 102 is shown having a rectangular geometry, alternate geometries may be employed without departing from the intended scope of the invention. Thus, for example, although main panel body 102 is shown having four individual edges 108, 110, 112 and 114, the shape of the periphery could be altered, and the corners may be rounded such that there is, for instance, a single contiguous peripheral edge. Optionally, apertures 116 may be provided extending into upper edge 108 for selectively supporting a mountable display apparatus 180. As shown, display apparatus 180 may include a display banner 189 supported between, and spanning, a left support post 182 and a right support post 184. The support posts 182, 184 may be inserted directly into corresponding apertures 116. Optionally, left and right collars, 186 and 188, respectively, may be disposed about the lower ends of corresponding left and right posts, 182 and 184, to provide improved structural support. Although the composition of the collars is not intended to be limited, it would be preferable to incorporate resilient collars to enable frictional support of the inserted post ends.

A carrying handle 118 may be provided on the upper edge 108 (as shown in FIG. 1 ) or, alternatively, on one of the side edges 112, 114 or on the rear surface 106. Referring briefly to the alternative implementation of FIG. 8 , carrying handles 218 are shown, for example, on an upper edge 208 and a rear surface 206 of main panel body 202. Furthermore, referring briefly to the alternative implementation shown in FIG. 12 , a carrying handle 418 may be provided as an integral feature of the main panel body 402. Likewise, in the exemplary implementation shown in FIG. 13 , a carrying handle 518 is shown integrally formed with main panel body 502.

A pair of supports 140 for securely maintaining main panel body 102 in an upright orientation may be provided. Each support 140 preferably has a geometry, or configuration, minimizing the risk of an individual inadvertently injuring his foot or toes when walking near the photograph rack assembly 100. Each support 140 may be defined by a base, or lower surface 142 having a circular lower periphery 141 transitioning to a convex upper surface 143. The convex upper surface 143 of each support 140 preferably includes an integral cavity 144 defined by interior lower horizontal surface 145, opposing interior vertical surfaces 147 extending upwardly from lower horizontal surface 145, and rear vertical surface 146 extending upwardly from lower horizontal surface 145 and spanning interior opposing vertical surfaces 147. In this manner, the lower corners of main panel body 102 may be snugly received within corresponding cavities 144 of the pair of supports 140. Optionally, each support 140 may include a cavity (or aperture) 148 for receiving a fishing rod 190 (FIG. 1 ) to add to the aesthetically pleasing nature of a photograph. Alternatively, reference numeral 140 may represent an aperture configured for receiving a mechanical fastener therethrough in order to securely fasten each support 140 to an underlying support surface, such as a dock. As will be apparent to those skilled in the art, it is contemplated to incorporate a hollow support 140 having an opening (not shown) extending through upper surface 143 into a corresponding support body interior space (not shown) to enable the ingress (and egress) of a material, such as water, sand, pebbles and the like, to provide additional weight to each support 140 for increased stability of the supported main panel body 102. In that case, it would be preferably to include a plug, cap or similar structure for selectively opening and closing the opening, as desired.

Referring again primarily to the exemplary implementation shown in FIGS. 1-6 , and as most clearly shown in FIG. 2 , an upper dovetail groove 120 is provided integrated into front surface 104 running laterally between left edge 112 and right edge 114. The upper dovetail groove 120 is defined by a rear surface 122 a tapered upper surface 124 and a tapered lower surface 126. The upper dovetail groove 120 is sized, shaped and otherwise configured for slidably receiving therein laterally-extending hook-supporting member 150, having a geometry defined by rear planar surface 152, tapered upper surface portion 153, tapered lower surface portion 154, right end 155, left end 156, front surface portion 157, planar upper surface portion 158, planar lower surface portion 159, and laterally-extending T-shaped channel 160 extending through planar lower surface portion 159.

Accordingly, when hook-supporting member 150 is slidably inserted into upper dovetail groove 120, hook-supporting member tapered upper surface portion 153 frictionally engages upper dovetail groove tapered upper surface 124, hook-supporting member tapered lower surface portion 154 frictionally engages upper dovetail groove tapered lower surface 126, and hook-supporting member rear planar surface 152 frictionally engages upper dovetail groove planar rear surface 122. Referring briefly to FIG. 4 , it can be seen that once hook-supporting member 150 is completely inserted into upper lateral dovetail groove 120 a portion of the hook-supporting member 150—as defined by front surface portion 157, planar upper surface portion 158 and planar lower surface portion 159—extends, or juts, outwardly beyond front surface 104 of main panel body 102. In this manner, laterally-extending T-shaped channel 160 likewise extends out beyond main panel body front surface 104 to provide adequate clearance for receiving unitary fish-supporting hook members 170.

As best seen in FIGS. 5 and 5A, each fish-supporting hook member 170 is sized, shaped and otherwise configured, for being slidably received into and through T-shaped channel 160. Each fish-supporting hook member 170 includes a shank 172, a fish-engaging cantilever portion 174, and an uppermost end 176. Uppermost end 176 of hook member 170 is sized and shaped to conform to upper hook-receiving portion 164 of T-shaped channel 160. Likewise, fish-supporting hook member shank 172 is sized and shaped to facilitate passage of the shank into and through lower hook-receiving portion 162 of T-shaped channel 160. Referring now particularly to FIG. 5A, during sliding passage of fish-supporting hook member 170 through T-shaped channel 160 hook member upper end 176 is bounded by the uppermost interior surface (not referenced in FIG. 5A) of upper hook-receiving portion 164, as well as shoulders 163 and main vertical sidewalls 165 of the upper hood-receiving portion. Likewise, shank 172 is partially bounded by main vertical sidewalls 161 of lower hook-receiving portion 162. A series of spaced-apart aligned pairs of slots 166, each defined by a pair of opposing vertical slot sidewalls 167 and lower supporting slot surface 168 spanning the sidewalls 167, are created in the corresponding opposed shoulders 163 to provide a series of positions along T-shaped channel 160 for selectively releasably locating each fish-supporting hook member 170. In this manner, the aforementioned configuration is beneficial in that it enables a user to define the quantity of hook members 170 to insert within T-shaped channel 160, as well as the desired spacing between each pair of adjacent hook members 170. Referring particularly to FIG. 6A, a hook tip protective sheath, coating or covering 175, may be provided for safety. As will be apparent to those skilled in the art, this arrangement and configuration provides a user with great flexibility depending upon the quantity and relative size of fish to be supported for the taking of a photograph, digital image or the like.

Referring now primarily to FIG. 2 , a lower dovetail groove 130 defined by rear planar surface 132, upper tapered surface 134 and lower tapered surface 136 may likewise be provided for receiving a second lateral hook-supporting member 150 in precisely the same manner as described hereinabove with reference to upper dovetail groove 120. As will be apparent to those skilled in the art, although a pair of dovetail grooves 120, 130 is shown in the accompanying FIGS. 1-6 the invention is not intended to be so limiting. Thus, more or less such grooves may be employed as desired. This arrangement provides great flexibility to a user, since it enables the user to alter the number of fish-supporting hooks 170 as well as the spacing between hooks depending upon the size and quantity of the catch of fish being photographed.

Referring now primarily to FIGS. 7-8 , in a further representative implementation, an adjustable fish-supporting photographic rack assembly 200 may be provided for use with a modified version of the lateral hook-supporting member 150 shown in FIGS. 1-6 and previously described hereinabove. Rack assembly 200 incorporates most of the features previously described with reference to the rack assembly 100 previously described. Rack assembly 200 includes a pair of supports 240 for securely maintaining main panel body 202 in an upright orientation. Each support 240 is preferably of identical structure to the supports 140 described hereinabove with reference to assembly 100, and each preferably includes at least one aperture 248 for the same intended purposes described hereinabove with regard to aperture 148 of support 140. Main panel body 202 is generally defined by front surface 204, rear surface 206, upper edge 208, lower edge 210, left edge 212, right edge 214, one or more handles 218, and upper edge apertures 216 (which may be used to support a mountable display apparatus such as display apparatus 180 shown in FIG. 1 and described in detail hereinabove with reference to assembly 100).

An upper dovetail groove 220 is provided integrated into front surface 204 running laterally between left edge 212 and right edge 214. The upper dovetail groove 220 is defined by a rear surface 222 a tapered upper surface 224 and a tapered lower surface 226. A similar lower laterally-extending dovetail groove 230 may be provided having a rear surface 232, an upper tapered surface 234, and a lower tapered surface 236. The upper and lower dovetail grooves, 220 and 230, respectively, are sized, shaped and otherwise configured for slidably receiving hook-supporting blocks 250, each having a geometry defined by rear planar surface 252, front planar surface 257, tapered upper surface portion 253, tapered lower surface portion 254, right side surface 251, and left side surface 255. A unitary hook-supporting hook member 270 may be provided extending outwardly, and depending downwardly, from front surface 257 of block member 250. Each fish-supporting hook member 270 preferably includes a shank 272, a fish-engaging cantilevered portion 274, and an upper length 276 fixedly secured to block 250. Preferably, upper length 276 is provided integrally molded to block 250. However, as will be apparent to those skilled in the art, alternate means for securing hook member 270 to block member 250 are possible and intended to be within the scope of the invention. For example, upper length 276 of hook member 270 could be provided having external threads configured for being threaded into a corresponding threaded cavity extending into front surface 257 of block member 250. Furthermore, upper length 276 could be affixed within a cavity extending into front surface 257 using an adhesive. Still further, upper length 276 could be provided with a mechanical feature configured for being snap-fitted into a cavity in front surface 257 having a corresponding mechanical feature for enabling selective snap-fit attachment of hook 270 to block 250.

Accordingly, when hook-supporting block 250 is slidably inserted, for example, into upper dovetail groove 220, hook-supporting block tapered upper surface portion 253 frictionally engages upper dovetail groove tapered upper surface 224, hook-supporting block tapered lower surface portion 254 frictionally engages upper dovetail groove tapered lower surface 226, and hook-supporting block rear planar surface 252 frictionally engages upper dovetail groove planar rear surface 222. Once hook-supporting block 250 is completely inserted into upper lateral dovetail groove 220, planar front surface 257 of block 250 is preferably substantially flush with front surface 204 of main panel body 202. Upper length 276 of hook 270 functions to provide clearance for shank 272 to depend downwardly in front of front surface 204.

Referring now particularly to FIGS. 9-11 , in a further representative implementation, an adjustable fish-supporting photographic rack assembly 300 may be provided for use with a corresponding hook-supporting bracket member 320 and fish-supporting hook 370. Photographic rack assembly 300 incorporates most of the features previously described with reference to the rack assemblies 100 and 200, previously described. Rack assembly 300 includes a pair of supports 340 for securely maintaining main panel body 302 in an upright orientation. Each support 340 is preferably of identical structure to the supports, 140 and 240, described hereinabove with reference to respective assemblies 100 and 200, and each preferably includes at least one aperture 348 for the same intended purposes described hereinabove with regard to apertures 148 and 248 of supports 140 and 240. Main panel body 302 is generally defined by front surface 304, rear surface 306, upper edge 308, lower edge 310, left edge 312, right edge 314, one or more handles 318, and upper edge apertures 316 (which may be used to support a mountable display apparatus such as display apparatus 180 shown in FIG. 1 and described in detail hereinabove with reference to assembly 100).

Hook-supporting bracket member 320 is preferably of a unitary construction and includes a rear flange portion 322 having a rear flange surface 324 and a front flange surface 326, and a plurality of countersunk apertures 328 for receiving mechanical fasteners (not shown) therethrough to aid in securing bracket member 320 to front surface 304 of main panel body 302. A central transition portion 330 extends outwardly from front surface 326, bridging rear flange portion 322 with a main cylindrical hook-receiving side wall portion 332 of bracket member 320. Contiguous sidewall portion 332 has a lower edge 334 and an upper edge 336.

Significantly, a plurality of upper edge features are preferably provided for enabling hook 370 to be securely seated through the bracket member 320 in multiple angular orientations, as further described below. In the exemplary implementation, the upper edge features are comprised of rectangular slot cutouts 338 in upper edge 336 in conjunction with rear rectangular depression 339 provided in central transition portion 330.

As best shown in FIG. 9A, a unitary fish-supporting hook 370 is provided having a shank 372, a fish-engaging cantilever portion 374 at a lower end thereof, and an upper structure 376 proximate a hook upper end 377 particularly configured for selective engagement with cutouts 338 and depression 339. In particular, upper portion 376 includes a plurality of angularly-spaced structural elements 378 sized, shaped and otherwise configured for being seated within the corresponding cutouts 338 and depression 339. Referring now particularly to FIG. 10 the aforementioned mating configuration of angularly-spaced structural elements 378 with corresponding angularly-spaced cutouts 338 and depression 339 enable a user to selectively rotate the hook from an operable, fish-supporting, orientation (depicted by reference numeral 370) to either a left-facing orientation 370A or a right-facing orientation 370B, when the hook is intended to be in a non-operable, or closed, orientation. Significantly, this enables a user to selectively rotate the hooks 370 depending upon which hook locations and bracket locations are desired to be used to support a catch of fish prior to taking a photographic image of the supported fish.

Referring now particularly to FIGS. 12 and 12A, in a further representative implementation, an adjustable fish-supporting photographic rack assembly 400 may be provided for use with a corresponding selectively-pivotable hook subassembly 420. Photographic rack assembly 400 incorporates most of the features previously described with reference to the rack assemblies 100, 200 and 300, previously described herein. Rack assembly 400 includes a pair of supports 440 for securely maintaining main panel body 402 in an upright orientation. Each support 440 is preferably of identical structure to the supports, 140, 240 and 340, described hereinabove with reference to respective assemblies 100, 200 and 300. Main panel body 402 is generally defined by front surface 404, rear surface 406, upper edge 408, lower edge 410, left edge 412, right edge 414, and one or more handles 418. In this exemplary representation, an alternative handle configuration is shown, wherein the handle 418 is provided as an integral opening extending completely through main panel body 402. As will be apparent to those skilled in the art, such an integral handle could be employed with any of the exemplary implementations in lieu of the carrying handle structure 118, 218 and 318, previously shown. Significantly, this particular implementation is intended to be of a relatively smaller-sized assembly—vis-à-vis the assemblies 100, 200 and 300, described heretofore—that is particular well-suited for use by young children. In this exemplary implementation, a plurality of cavities 416 is provided extending into the front surface 404. Although the cavities 416 are shown arranged in a matrix configuration, the invention should not be considered as limited to any particular cavity arrangement.

A plurality of selectively pivotable hook subassemblies 420 are provided seated within the respective cavities. Each pivotable hook subassembly 420 generally includes a support housing insert 430, a unitary pivotable fish-supporting hook member 440, and a hook support pin 438. Support housing insert 430 includes a rear housing portion 436 having a housing cavity 434. Preferably, the housing cavity opening is surrounded peripherally by an outwardly extending flange 432 having a pair of axially-aligned apertures extending transversely therethrough. Unitary pivotable fish-supporting hook member 440 preferably includes a thickened proximal end 442, a distal fish-engaging end 446, and a central portion 444 adjoining proximal and distal ends, 442 and 446. Preferably, central portion 444 transitions to distal fish-engaging end 446 via an upwardly curved transition portion 445. A transverse-oriented, or lateral, channel 447 is provided extending completely through thickened proximal end 442.

During assembly of the pivotable hook subassembly 420, thickened end 442 of fish-supporting hook member 440 is inserted into front receiving cavity 434 of support housing insert 430 until hook channel 447 is in axial alignment with the apertures 437 of the support housing insert. Subsequently, hook support pin 438 is inserted completely through a first one of the flange apertures 437, through a first end of hook channel 447, and through (or into) a second one of the flange apertures 437. In this manner, fish-supporting hook member 440 is pivotably secured for selective rotation about hook support pin 438. A torsion spring (not shown, but well understood in the art) is integrated within subassembly 420 in order to rotationally bias hook member 440 completely into cavity 434 of support housing insert 430. As will be apparent to those skilled in the art, the precise structure of pivotable hook subassembly 420 is not intended to be limiting. For example, in lieu of pin 438 and housing insert apertures 437 it is contemplated to provide a pair of integral nubs on the interior surface of support housing insert 430, extending into cavity 434, at the same locations as apertures 437. In this manner, hook member 440 could be snap-fittingly engaged to support housing insert 430.

Referring now to FIG. 13 , in a further representative implementation, an adjustable fish-supporting photographic rack assembly 500 may be provided for use with a corresponding plurality of unitary fish-supporting hook members 520. Photographic rack assembly 500 incorporates most of the features previously described with reference to the rack assemblies 100, 200, 300 and 400, previously described herein. Rack assembly 500 may include a pair of supports 440 for securely maintaining main panel body 502 in an upright orientation. Each support 540 is preferably of identical structure to the supports, 140, 240, 340 and 440 described hereinabove with reference to respective assemblies 100, 200, 300 and 400. Main panel body 502 is generally defined by front surface 504, rear surface 506, upper edge 508, lower edge 510, left edge 512, right edge 514, and one or more handles 518. A plurality of internally-threaded hook-receiving apertures 516 are provided extending into front surface 504 of main panel body 502. Each fish-supporting hook member includes an externally-threaded length 522, a fish-engaging cantilever portion 526, and a shank 524 therebetween. In use, one or more fish-supporting hook members 520 may be threadingly inserted into one or more of the internally threaded apertures 516. As will be apparent to those skilled in the art, the arrangement of internally-threaded apertures 516 may be provided in any desired configuration. Thus, the spacing between apertures and the relative location of the apertures is not intended to be limiting. Furthermore, different-sized hooks 520 may be used depending upon the size and weight of the catch of fish intended to be supported prior to the taking of a photograph, digital image or the like.

Referring now to FIGS. 14-20 , in accordance with a further representative implementation of the present invention, an adjustable fish-supporting photographic rack assembly is shown generally as reference numeral 600. Rack assembly 600 includes a stanchion rack framework subassembly 602 having a horizontal segment 606, a pair of upper curved segments 610, and a pair of vertical segments 604, 608. The upper curved segments 610 adjoin opposite ends of horizontal segment 606 with downwardly-depending vertical segments 604, 608, respectively. As previously stated hereinabove, as will be apparent to those skilled in the art, although the framework 602 of the rack 600 is shown having a particular framework-based stanchion geometry, alternate framework geometries may be employed without departing from the scope of the invention. For instance, the framework 602 geometry could be altered to form an arched top by substituting a curved upper segment for linear horizontal segment 606. Furthermore, although it is contemplated that the rack 600 be made out of metal, alternative materials such as, for example, thermoplastics, or durable composite polymers may be employed. As is best shown in FIG. 15 , tabs 607 with apertures may be included on the inward facing portions of the segments forming the framework 602 for removably attaching a central panel 630 thereto. As shown, the central panel 630 may include a plurality of apertures 634 in the form of a series of horizontal rows 636 a, 636 b, and 636 c. The central panel 630 may also include a design element 670 on its surface 632. For example purposes only, and in no way to be considered limiting, a design element 670 may be etched on to the surface 632 of the central panel into the shape of a fish (as depicted in FIG. 14 ). It should be readily understood that alternative shapes and/or designs may be employed and displayed through different mediums (e.g. stickers, paintings, etc.) on the panel 630 if desired.

Referring primarily to FIGS. 14, 15 and 17 , first and a second support bases, 610 a and 610 b, respectively, are provided configured to receive distal end portions of the pair of vertical segments 604, 608 into the corresponding openings 617 of the support bases 610 a, 610 b for securely maintaining the framework 602 of the rack 600 in an upright position. Each support base 610 a, 610 b has a geometry, or configuration, to minimize the risk of the rack assembly 600 tipping over and injuring someone. Each support base 610 a, 610 b may be defined by a planar base 612 having, for example, an elliptical shape and at least a pair of apertures 614 at opposite ends thereof to selectively affix the rack assembly 600 to a ground support surface 800 (as shown in FIG. 20 ). As can be best understood to one of ordinary skill, alternative base configurations may be employed without departing from the scope of the invention. Projecting upwardly from the base portion 612 of each respective support base 610 a, 601 b is an interconnecting plate 616 in the form of a wedge widest at the bottom and narrowing in an upward direction. Integrated at the middle of the interconnecting plate 616 projecting upwardly and perpendicularly from a mid-portion of the base plate 612 is a vertical connector tube 619 having an opening 617 at its upper end for selectively receiving a distal end portion of one of the vertical segments 604, 608 of framework 602. As best shown in FIGS. 14 and 15 , when mating the framework 602 to the base supports 610 a, 610 b of the rack assembly 600, the distal end portions of the vertical segments 604, 608 of the framework 602 are inserted into the respective openings 617 of the base supports 610 a, 610, with an interposed bushing 635 used to prevent metal-to-metal contact, for example, in the case where a metal material is used to construct the rack assembly 600. A dual spring clip 637 is inserted into each one of the upper openings of the vertical segments 604, 608, for engagement with the apertures 618 on the respective vertical support tubes 619 to enable selective adjustment of the overall height of the rack assembly 600 to a desired height.

Turning now to FIG. 18 , a hook member generally assigned reference numeral 640 is provided. The hook member 640 is sized, shaped, and otherwise configured, to be inserted simultaneously into two adjacent apertures of the series of apertures 634 defining horizontal aperture rows 363 a, 363 b, and 363 c (shown in FIGS. 14, 15 and 17-20 ). Each hook member 640 includes a main linear portion 644 transitioning to a semi-curved distal end 646, and terminating at a proximal end 643 that is externally threaded 645. The distal end 646 of the hook 640 may include a protective sheath, coating or covering for safety. Extending perpendicularly from hook's proximal end is a hook length portion 647 terminating at an elbowed end 642 that extends adjacent to the hook's main portion and terminates just short of the corresponding hook proximal end 643. Referring briefly to FIG. 16 , during installation of the hook member 640 to the rack assembly 600, the proximal end portion 643 of the hook's main portion 644 and the adjacent parallel projecting elbow end portion 642, together, are selectively inserted into a pair of adjacent apertures provided on the front face 632 of the central panel 630. When both proximal ends 642, 645 of the hook 640 are inserted into corresponding adjacent apertures, a portion of the hook's threaded portion 645 is exposed on the opposite side of the front face 632 of the central panel 630 (i.e. the threaded portion extends completely through the panel body 632. In this manner, the hook 640 can then be securely fastened by inserting a washer 651 and threading a nut 650 on to the exposed external threaded portion 645 of the hook 640. It will be readily understood that each respective hook attached and fastened to the racks central panel 630 can be detached and relocated to a different location on the panel. Once securely fastened to the central panel 630, each hook 640 is configured to carry the relatively large load of a hanging fish without yielding.

Referring now to FIGS. 19 and 20 , when fully assembled, rack 600 may be used to hold a variety of fish species of varying weights and sizes (e.g. small 700 c, medium 700 b, and large 700 a). As will be apparent to those skilled in the art, the arrangement of the bored apertures 634 may be provided in any desired configuration. Thus, the spacing between apertures and the relative location of the apertures is not intended to be limiting. Furthermore, different-sized hooks 640 may be used depending upon the size and weight requirements of the catch of fish intended to be supported prior to the taking of a photograph, digital image or the like.

Referring now particularly to FIGS. 21-26 a, in accordance with a further exemplary implementation of an adjustable fish-supporting photographic rack assembly 900 in accordance with the present invention. As best shown in FIG. 21 , the rack assembly 900 generally includes: (a) a pair of spaced-apart left and right support stanchion, 902L and 902R, respectively; (b) a plurality of hook rod-retaining cross member subassemblies 930 a, 930 b, 930 c, each including a selectively-rotatable hook rod 960 rotatably seated within a hook rod retaining cross member body 940; a front protective display panel 980; a rear protective display panel 990; and an optional upper cover strip 995 (see FIG. 22 ).

Preferably, each stanchion 902L, 902R is in the form of a rigid metal framework constructed, for example, of powder-coated aluminum members, or the like. Each stanchion 902L, 902R may include a pair of stanchion support feet subassemblies 904 provided in the form of stanchion feet 906 directly welded (or otherwise fastened) to planar stabilizing plates 905. The stabilizing plates may include apertures 907 for receiving mechanical fasteners (not shown), such as concrete screws or the like, for securely attaching the stanchions 902L, 902R into a ground support surface, such as a concrete slab, wood dock, etc. Each stanchion 902L, 902R may include a vertical stanchion body portion, or length, shown generally as 910, and an intermediate metal framework portion 908 adjoining the stanchion feet 906 and the vertical stanchion body portions/lengths 910. Preferably, each vertical stanchion body length 910 is further defined by an exteriorly-facing, or outer-facing, side 912, an interiorly-facing, or inner-facing, side 914, a front edge 916, a rear edge 918, and an upper distal end 920. Each vertical stanchion body length 910 may further include a lowermost series of stanchion apertures 922 a, an uppermost series of stanchion apertures 922 c, and at least one intermediate series of stanchion apertures 922 b. Each series of stanchion apertures preferably includes a pair of apertures 926 extending therethrough and aligned with a corresponding pair of apertures 946 extending into the opposite left and right ends, 944 and 945, respectively, of hook rod retaining cross member 940, such that mechanical fasteners may be employed for fixedly attaching each end of cross member 940 to the corresponding vertical stanchion body length of the respective left and right stanchions 902L, 902R. Furthermore, each series of stanchion apertures 922 a, 922 b, 922 c preferably includes a center aperture 924 sized, shaped, and otherwise configured for receiving one of the opposite distal end portions 964 of main body 962 of selectively-rotatable hook rod 960 therethrough. As best shown in FIGS. 26 and 26A, hook rod distal end portions 964 may have a reduced cross-sectional diameter, or area, vis-à-vis rod main body 962.

Referring now particularly to FIGS. 26 and 26A, a selectively-rotatable hook rod 960 may include a main body 962 having a generally cylindrical geometry. Although hook rod main body 962 is preferably of a generally cylindrical geometry, a flat surface portion 963 (or, alternatively, a series of spaced flats) may be provided for facilitating a secure weld attachment 968 (FIG. 26A) of each of a series of spaced-apart hooks 966 to the hook rod main body. Alternatively, it is contemplated to use a completely cylindrical rod main body having a series of depressions provided therein for facilitating attachment of the hooks 966, such as by welding, to a cylindrical rod surface. Significantly, it is preferred that the hooks 966 are fixed to the hook rod main body 962 at a relative orientation (for example, to main rod flat portion 963) such that they remain at an upward angle of approximately fifteen degrees (15°) to a horizontal plane when the hook rod 960 is rotated into an extended, deployed position for holding fish. The slight upward taper acts to prevent fish attached to the hooks from undesirably sliding off without the aid of an individual. Preferably, the individual hook bodies 966 are also constructed from a rigid metal such as, for example, powder-coated aluminum rod segments.

Referring now primarily to FIG. 25 , the structure of hook rod retaining cross member 940 is shown in more detail. The cross member 940 is generally bounded by a front side 942, an opposite rear side 943, a left end 944, and an opposite right end 945. The cross member 940 is further defined by a C-shaped channel extending laterally across its entire length and through front side 942 to define a cross member front side channel opening extending between a lower channel lip 950, or edge, and an upper channel lip 952, or edge. Access to the channel 948 is further provided through lateral access openings 956 at the opposite ends, 944, 955 of the cross member. Significantly, a series of spaced-apart hook retention recesses 954 extend into front side 942 for receiving the corresponding spaced-apart hook bodies 966 of hook rod 960 when the hook rod is selectively rotated into a retracted, non-deployed position. As described briefly hereinabove, a pair of fastener-receiving apertures 946 may be provided extending into the opposite ends 944, 945 of the cross member body for facilitating secure attachment of each cross member 940 extending laterally between the left and right support stanchions when the adjustable fish-supporting photographic rack assembly 900 is in a fully assembled state. Preferably, the hook rod retaining cross members 940 a, 940 b, 940 c are constructed from a lightweight marine grade rigid polymer having excellent dimensional stability, machinability and high mechanical strength, such as an acetal homopolymer. Various commercially available acetal homopolymer are sold under various tradenames, including DELRIN, HOSAFORM, DURACON, and CELCON.

A front display panel 980 is provided sized, shaped, and otherwise configured for direct attachment to the front side 916 of the spaced-apart stanchions. Front display panel 980 may be fixedly attached to the front side 916 of the stanchions using mechanical fasteners extending through corner apertures 987 in the front display panel and through corresponding apertures (not shown) in the front side of the stanchions. Significantly, rows of spaced-apart hook passage slots 984 extend completely through the display panel, which are sized, shaped, and positioned such that they are in alignment with the hook retention recesses 954 in the hook rod retaining cross member 940. Significantly, in this manner the display panel slots 984 enable passage of the corresponding spaced-apart hooks 966, during rotation of the selectively-rotatable hook rod 960, between an extended deployed state (as shown in FIGS. 22 and 23 ) and a fully retracted stowed state. The front display panel 980 functions to protect the hook rod retaining cross members 940 a, 940 b, 940 c from environmental elements. Furthermore, the present invention employs the use of so-called “metal photo prints,” which provide aesthetically-pleasing color photographic images printed on aluminum sheets. Details of the construction and manufacture of such metal photo prints is available, for example, at www.Aluminyze.com. Accordingly, the front display panel 980 further provides an aesthetically pleasing backdrop while taking photographs of anglers with their catch of fish displayed on the rack assembly 900. Furthermore, the front display panel 980 provides an aesthetically pleasing image when the photographic rack assembly 900 is not being used in such a manner.

A rear display panel 990 having a similar construction to the front display panel 980 is likewise designed for attachment to the rear side 918 of the spaced-apart stanchions 902L, 902R, via corner apertures 999 that align with corresponding apertures (not shown) in the rear sides 918 of the stanchions 902L, 902R. On its exposed, exterior-facing side 992, the rear display panel may incorporate advertising and marketing information, for example, pertaining to a particular charter boat company, marina, etc. as shown in FIG. 24 .

Significantly, the photographic rack assembly 900 has a construction that is conducive to relatively inexpensive manufacture, efficient packaging for sale, and ease of assembly. During assembly, each selectively-rotatable hook rod 960 may be slidably inserted through the corresponding C-shaped channel 948 of a respective hook rod retaining cross member, with the spaced-apart hooks 966 extending outwardly through the opening in the front side 942 of the cross member 940 as the hook rod 960 is slidably inserted therethrough, such that the individual spaced-apart hooks 966 are in direct alignment with the corresponding spaced-apart hook retention recesses 954 of the cross member when the hook rod is in a fully-inserted position. In this fully-inserted position distal end portions 964 of hook rod main body 962 extend outwardly a distance beyond the corresponding ends 944, 945 of the cross member.

Subsequently, the distal end portions 964 are received through corresponding distal end receiving apertures of a corresponding series of stanchion apertures 922 a, 922 b, 922 c such that internally-threaded apertures 946 (or, alternatively, threaded sleeves press-fitted into the cross member apertures) at the ends of each cross member 940 align with corresponding cross member stanchion attachment apertures 926. Subsequently, mechanical fasteners 936 are extended through the aligned apertures to securely fasten the hook rod retaining cross members traversing the spaced-apart stanchions 902L, 902R. Subsequently, hook rod rotation knobs 934, or the like, may be disposed upon the distal end portions 964 of the main body 962 of each selectively rotatable hook rod 960. Subsequently, with the hook rod retaining cross members securely fastened to the spaced-apart stanchions 902L, 902R the front and rear display panels, 980 and 990, respectively, are assembled to the front and rear edges 916, 918 of the stanchions, and upper cover strip 995 snap-fitted or otherwise attached to the top of the assembly between upper edges of the front and rear display panels.

Referring now to FIGS. 27-30 , an adjustable fish-supporting photographic rack assembly 1000 is shown in accordance with a further implementation of the present invention. In FIGS. 27 and 29 , the adjustable fish-supporting photographic rack assembly 1000 is shown fully-assembled with individual rotatable hook rod assemblies 1040, 1050, and 1060 in a non-deployed, or stowed, state. In FIG. 30 , the adjustable fish-supporting photographic rack assembly 1000 is shown fully-assembled with individual rotatable hook rod assemblies 1040, 1050, and 1060 in a forwardly-rotated, deployed state and ready for use.

Broadly, photographic rack assembly 1000 includes a tubular framework 1002, a pair of left and right support bases, 1020A and 1020B, respectively, for supporting opposite ends of the tubular framework, a plurality of horizontally-oriented rotatable hook rod assemblies, 1040, 1050 and 1060, spanning an interior of the tubular framework, pairs of left and right rotatable hook rod assembly support members, 1070A and 1070B, respectively, and a central panel 1030, functioning as an aesthetic backdrop, having a periphery attached to the tubular framework and disposed behind the rotatable hook rod assemblies. Referring primarily to FIG. 28 , the structure of the photographic rack assembly 1000 will now be described in more detail.

Tubular framework 1002 may include (upper) horizontal framework member 1004, left and right vertical framework members, 1006A and 1006B, respectively, and left and right curved framework members, 1008A and 1008B, respectively, interconnecting the left and right vertical framework members to corresponding left and right ends of the horizontal framework member. Multiple connection tabs 1010 may be provided spaced along the tubular framework 1002 for enabling selective attachment of a central panel 1030. As previously described with respect to previous embodiments of the invention, central panel 1030 may incorporate an aesthetic image functioning as a photographic backdrop during use of the adjustable fish-supporting photographic rack assembly 1000. As described in more detail below, aligned pairs of upper/lower apertures 1012 are provided through the vertical framework members 1006A, 1006B to enable attachment of left and right rotatable hook rod assembly support members, 1078A and 1078B, respectively, to the vertical framework members, as well for enabling rotational attachment of corresponding upper, intermediate and lower, rotatable hook rod assemblies, 1040, 1050 and 1060, respectively, spanning the vertical framework members 1006A, 1006B. Furthermore, additional apertures 1013 may be provided proximate to the lower end portions of the vertical framework members 1006A, 1006B for enabling attachment of the vertical framework member lower ends to left and right support bases, 1020A and 1020B, respectively.

The support bases 1020A, 1020B each include a planar base portion 1022, a vertical connector tube 1024 extending upwardly from an upper surface of the planar base portion, and a pair of interconnecting plates 1028 spanning opposite lateral sides of the vertical connector tube and the upper surface of the support base planar base portion. In addition to providing added stability to the framework 1002, the interconnecting plates 1028 may be designed as an aesthetic feature (e.g. designed in the form of a fish tail, etc.). Apertures 1023 may be provided through the planar base portions 1022 for enabling secure attachment of the support bases 1020A, 1020B to an underlying ground support surface (G; FIG. 30 ), such as a concrete slab or the like. Framework 1002 may be assembled to the support bases 1020A, 1020B by inserting lower ends 1014 of the vertical framework members 1006A, 1006B through an upper opening 1026 in vertical connector tube 1024 until the lower apertures 1013 of the vertical framework members are aligned with the corresponding apertures 1025 in the vertical connector tubes 1024, and then inserting conventional mechanical fastener components (not shown) through the aligned apertures.

Pairs of left and right support members, 1070A and 1070B, respectively, are provided to support the rotatable hook rod assemblies 1040, 1050, 1060 when they are forwardly rotated (as indicated by reference characters R₁, R₂, and R₃ in FIG. 30 ) during use. Accordingly, the left and right support members 1070A, 1070B are alternatively referred to herein as “left rotatable hook rod assembly support member 1070A” and “right rotatable hook rod assembly support member 1070B.” The left and right rotatable hook rod assemblies 1070A, 1070B have identical structures, but they are mirror images of one another. Referring now particularly to FIG. 28A, an enlarged view of right rotatable hook rod assembly support member 1070B is shown to illustrate further structural details. Right hook rod assembly support member 1070B preferably has a unitary, or one-piece, structure including a vertically-oriented tubular, or cylindrical, collar portion 1072 extending between collar portion upper and lower ends, and including a pair of vertically-spaced upper and lower fastener openings 1078 extending through its sidewall. A vertical, or vertically-oriented, planar wall portion 1074 is provided spanning the opposite upper and lower ends of the vertically-oriented cylindrical collar portion 1072, and projecting radially outward therefrom. A generally horizontal planar wall portion 1076 is provided projecting laterally (in this case, to the left) from a lower end of the vertical wall portion 1074 to define an upper support surface 1077 for supporting a corresponding horizontally-oriented hook rod 1042, 1052, 1062 in a forwardly-rotated, fish-supporting, position. In that sense, upper support surface 1077 further functions as a stop limit to the forward rotations, R₁, R₂ and R₃, of corresponding upper hook rod 1042, intermediate hook rod 1052 and lower hook rod 1062, respectively. As best shown in FIG. 30 , it is preferable that upper surface 1077 of horizontal wall portion 1076 is angled upwardly in a forward direction such that the forward rotations R₁, R₂ and R₃, of the horizontally-oriented hook rods 1042, 1052, 1062, are limited to respective forward rotational angles, β₁, β₂ and β₃, of less than ninety degrees (90°). In this manner, sets of spaced-apart hooks 1049, 1059 and 1069, projecting outwardly from the respective hook rods are maintained at a desired upward angle in order to prevent fish supported thereon from inadvertently sliding off of the respective hooks during use of the photographic rack assembly 1000 to create a photographic backdrop. Preferably, the maximum angles of forward rotation (β₁, β₂ and β₃) of the respective hook rods 1042, 1052 and 1062, about central axes X₁, X₂ and X₃, is restricted to about seventy-five degrees (75°). During assembly, the right and left support members, 1078A and 1070B, are sleeved over the left and right vertical framework members, 1006A and 1006B, until the tubular collar apertures 1078 are aligned with the vertical framework member apertures 1012, and then mechanical fasteners (not shown) are used to fixedly attach the support members to the vertical framework members.

Upper, intermediate and lower, horizontally-oriented rotatable hook rod assemblies, 1040, 1050 and 1060, respectively, are assembled to framework 1002 in a manner enabling each hook rod assembly to be rotated between a stowed position (e.g. as shown in FIGS. 27 and 29 ) and a forwardly-rotated in-use position (e.g. as shown in FIG. 30 ). For convenience, the general structure of the hook rod assemblies will be now be described primarily with respect to upper rotatable hook rod assembly 1040. Horizontally-oriented upper hook rod assembly 1040 includes an upper hook rod 1042 defined by a horizontal length 1044 transitioning, via interconnecting left and right curved portions, 1046A and 1046B, to respective left and right linear end portions, 1045A and 1045B. The left and right linear end portions 1045A, 1045B each include an aperture 1047 for enabling rotational attachment of the left and right linear end portions to the respective left and right vertical framework members, 1006A and 1006B, via mechanical fasteners (not shown) extending through linear end portion apertures 1047 and lower ones of the aperture pairs 1012 in the vertical framework members 1006A, 1006B, thereby enabling rotation of upper rotatable hook rod assembly 1040, including spaced-apart hooks 1049 projecting from horizontal length 1044, about upper rotational axis X₁.

Similarly, horizontally-oriented intermediate hook rod assembly 1050 includes an intermediate hook rod 1052 defined by a horizontal length 1054 transitioning, via interconnecting left and right curved portions, 1056A and 1056B, to respective left and right linear end portions, 1055A and 1055B. The left and right linear end portions 1055A, 1055B each include an aperture 1047 for enabling rotational attachment of the left and right linear end portions to the respective left and right vertical framework members, 1006A and 1006B, via mechanical fasteners (not shown) extending through linear end portion apertures 1047 and lower ones of the (intermediate) aperture pairs 1012 in the vertical framework members 1006A, 1006B, thereby enabling rotation of intermediate rotatable hook rod assembly 1050, including spaced-apart hooks 1059 projecting from horizontal length 1054, about intermediate rotational axis X₂.

Likewise, horizontally-oriented lower hook rod assembly 1060 includes a lower hook rod 1062 defined by a horizontal length 1064 transitioning, via interconnecting left and right curved portions, 1066A and 1066B, to respective left and right linear end portions, 1065A and 1065B. The left and right linear end portions 1065A, 1065B each include an aperture 1047 for enabling rotational attachment of the left and right linear end portions to the respective left and right vertical framework members, 1006A and 1006B, via mechanical fasteners (not shown) extending through linear end portion apertures 1047 and lower ones of the (lower) aperture pairs 1012 in the vertical framework members 1006A, 1006B, thereby enabling rotation of lower rotatable hook rod assembly 1060, including spaced-apart hooks 1069 projecting from horizontal length 1064, about lower rotational axis X₃.

As best shown in FIGS. 27 and 29 , when the rotatable hook rod assemblies 1040, 1050, 1060 are in a stowed position the corresponding spaced-apart fish-supporting hooks 1049, 1059, 1069 project upwards, precluding injury to passersby from inadvertent contact with the fish-supporting hooks. As best shown in FIG. 30 , when the rotatable hook rod assemblies 1040, 1050, 1060 are rotated about respective axes X₁, X₂ and X₃ (as indicated by reference characters R₁, R₂ and R₃) to in-use positions 1040′, 1050′, 1060′, the respective fish-hanging hooks 1049, 1059, 1069 project outwardly at an angle of approximately 15° from horizontal. In other words, it is preferred that the rotatable hook rod assemblies are rotated at angles β₁, β₂, β₃ less than 90° from their vertical, stowed position.

Referring now to FIGS. 31-34 , an adjustable fish-supporting photographic rack assembly 1100 is shown in accordance with a further implementation of the present invention. Significantly, adjustable fish-supporting photographic rack assembly 1100 incorporates a snap-fit framework structure that enables efficient packaging of individual assembly components for convenient shipping to consumers, and facilitates simple and efficient assembly/installation by a single individual with minimal tool use. Likewise, the snap-fit framework structure can be easily disassembled and relocated by a single individual. Furthermore, the assembled rack 1100 is in the form of a standalone unit, which enables relatively simple adjustment of the position/orientation of the assembled rack upon a support surface.

Referring now particularly to FIG. 31 , adjustable fish-supporting photographic rack assembly 1100 is shown in an exploded state. Generally, adjustable fish-supporting photographic rack assembly 1100 includes an inverted U-shaped upper tubular framework member 1110, a main tubular framework body 1120, a pair of support stanchions 1140, and a rear banner 1160, 1170 spanning upper and lower interior framework openings, 1110 a and 1120 a (FIG. 32 ), respectively, defined by the assembled framework.

Main tubular framework body 1120 includes an upper horizontal metal hook rod 1122 having opposite ends permanently welded to upper end portions of spaced-apart right and left tubular vertical framework members, 1126 and 1128, respectively. Likewise, main tubular framework body 1120 includes a lower horizontal metal hook rod 1124 having opposite ends permanently welded to lower end portions of the spaced-apart right and left tubular vertical framework members 1126, 1128. The upper and lower horizontal metal hook rods 1122, 1124 each include a plurality, or series, of spaced-apart rigid aluminum fish-supporting hooks 1134 permanently welded thereto such that the hooks protrude outwardly in a forward direction. The fish-supporting hooks 1134 are formed having semi-blunted tips to prevent inadvertent injury to an individual during packaging, assembly, disassembly or use of the invention. Furthermore, each hook preferably extends outwardly from its respective horizontal metal hook rod a distance of between 1 inch (2.54 cm) and 2 inches (5.08 cm).

Significantly, the permanently welded construction of the main tubular framework body 1120 (including the permanently welded fish-supporting hooks 1134) results in a high-strength unitary, or one-piece, framework structure having sufficient mechanical strength to safely and securely support the weight of a catch of fish (not shown). At their upper ends, the right and left hollow vertical framework members 1126, 1128 taper inwardly to define respective reduced diameter upper end portions 1126 a, 1128 a. For purposes described in more detail below, upper apertures 1130 are provided extending though the sidewalls of the reduced diameter upper end portions 1126 a, 1128 b, and lower apertures 1132 are provided extending through the sidewalls of the lower ends of right and left hollow vertical framework members 1126, 1128.

Inverted U-shaped tubular framework member 1110 is further defined by a horizontal length 1112 transitioning, via right and left intermediate curved lengths, 1114 a and 1114 b, respectively, to corresponding opposite right and left vertical lengths, 1116 a and 1116 b. For purposes described in more detail below, apertures 1118 are provided extending through the sidewall of lower ends of the right and left vertical lengths 1116 a, 1116 b, and pairs of apertures (not shown) are provided extending through the lower sidewall of horizontal length 1112 at opposite ends thereof.

Each of the pair of spaced-apart support stanchions 1140 is defined by a flat, or planar, stanchion support base plate 1150, a tubular vertical support member 1142 extending upwardly from an upper surface of the stanchion support base plate, and a pair of opposite front and rear arcuate support members, 1146 and 1148, each welded at a lower end to the stanchion support base plate and each welded at an upper end to the tubular vertical support member. For purposes described in more detail below, upper apertures 1144 are provided extending though the sidewalls of reduced diameter upper end portions 1142 a of tubular vertical support member 1142. Each stanchion support base plate 1150 is provided having apertures 1152 at opposite forward and rearward ends thereof. The apertures 1152 are provided for enabling the respective stanchion support base plates 1150 to be securely attached, via conventional threaded mechanical fasteners (not shown), to a flat underlying support surface.

Significantly, adjustable fish-supporting photographic rack assembly 1100 is uniquely constructed and configured to enable quick assembly by a single individual. Main tubular framework body 1120 may be releasably attached to spaced-apart support stanchions 1140. A stainless steel push snap clip 1106 (alternatively referred to as a “spring leg snap button”) is inserted into the open end of the reduced-diameter end portion 1142 a of the hollow vertical support member 1142 of each support stanchion 1140, such that a push button 1106 a of the stainless steel push snap clip 1106 protrudes through at least one upper aperture 1144 of tubular vertical support member 1142. Although a single spring leg snap button 1106 is shown in the drawings, preferably, a double spring leg snap button will be employed for improved stability. A double spring leg snap button would have a pair of push buttons 1106 a extending through a respective pair of upper apertures 1144. With the stainless steel push snap clips 1106 in place, the open lower ends of the right and left hollow vertical framework members, 1126 and 1128, are sleeved over the reduced-diameter end portions 1142 a of the hollow vertical support members 1142 until the push buttons 1106 a of the push snap clips 1106 protrude through the lower apertures 1132 extending through the sidewalls of the lower ends of the right and left hollow vertical framework members 1126, 1128 to thereby securely releasably attach the main tubular framework body 1120 to the underlying support stanchions 1140.

In a similar manner, inverted U-shaped tubular member 1110 may be securely releasably attached to the upper end of main tubular framework body 1120. Preferably, a pair of stainless steel push snap clips 1106 are initially inserted into the open ends of the reduced-diameter end portions 1126 a, 1128 a of the hollow vertical framework members 1126, 1128 until the push buttons 1106 a protrude through the upper apertures 1130 extending though the sidewalls of the reduced diameter upper end portions 1126 a, 1128 b. With the stainless steel push snap clips 1106 in place, the open lower ends of right and left vertical lengths, 1116 a and 1116 b, of inverted U-shaped tubular member 1110 are sleeved over the reduced-diameter end portions, 1126 a and 1128 a, of right and left hollow vertical framework members, 1126 and 1128, respectively, until the push buttons 1106 a of the push snap clips 1106 protrude through the lower apertures 1118 extending through the sidewalls of the lower ends of the right and left vertical lengths, 1116 a and 1116 b to thereby securely releasably attach the inverted U-shaped tubular member 1110 to the underlying main tubular framework body 1120. With the entire framework 1110, 1120 securely assembled to the support stanchions 1140 the stanchions can optionally be securely fastened to an underlying support surface.

Referring now to FIGS. 31-34 , a display banner is provided for assembly to the framework structure. The display banner includes an upper display banner portion 1160 sized and shaped to span framework opening 1110 a, and a lower display banner portion 1170 sized and shaped to span framework opening 1120 a. Although the upper and lower display banner portions, 1160 and 1170, are shown as individual banner panels in the drawings it is understood that the upper and lower display banner portions may be portions of a single contiguous panel of banner material. A pair of spaced-apart slots 1162 may be provided along an upper end of upper display banner portion 1160 for receiving attachment webbing (not shown) therethrough. Moreover, a pair of webbing guides 1102 may be secured to the underside of opposite ends of horizontal length 1112 of inverted U-shaped tubular framework member 1110 via conventional mechanical fasteners 1104. In this manner, lengths of webbing, e.g. nylon straps (not show) may be inserted through webbing receiving slots 1162 of upper banner portion 1160 and through corresponding webbing guides 1102 to secure the upper banner portion to inverted U-shaped tubular member 1110. The upper and lower banner portions 1160, 1170 may be further secured to the rear side of inverted U-shaped tubular framework member 1110 and to the rear sides of the hollow vertical framework members 1126, 1128, via conventional fasteners (not shown).

Since many modifications, variations, and changes in detail can be made to the described preferred embodiments of the invention, it is intended that all matters in the foregoing description and shown in the accompanying drawings be interpreted as illustrative and not in a limiting sense. Thus, the scope of the invention should be determined by the appended claims and their legal equivalence. By way of example, it is contemplated to incorporate a wheel or roller subassembly, or the like, either along a lower edge of the main panel body and/or panel corner supports in order to provide means for rolling the assembly along a ground surface rather than carrying the assembly. 

What is claimed is:
 1. An adjustable fish-supporting photographic rack assembly, comprising: a main tubular framework body having a plurality of spaced-apart fish-supporting hooks extending outwardly therefrom, the main tubular framework body defining a lower interior framework opening; an upper tubular framework member releasably attached to an upper end of said main tubular framework body to define an upper interior framework opening; a pair of spaced-apart left and right support stanchions releasably attached to a lower end of said main tubular framework body; and a banner in the form of a flexible panel affixed to said main tubular framework body and said upper tubular framework member, such that an upper banner portion spans the upper interior framework opening and a lower banner portion spans the lower interior framework opening.
 2. The adjustable fish-supporting photographic rack assembly of claim 1, wherein said upper tubular framework member further comprises: an inverted U-shaped tubular framework member defined by a horizontal length having a right end transitioning, via a right intermediate curved length, to an open-ended downwardly-extending right vertical length, and having a left end transitioning, via a left intermediate curved length, to an open-ended downwardly-extending left vertical length, each of said right and left vertical lengths having at least one aperture extending through a sidewall thereof.
 3. The adjustable fish-supporting photographic rack assembly of claim 2, wherein said main tubular framework body further comprises: a left tubular vertical framework member having an open lower end and an opposite reduced-diameter open upper end portion, the open lower end of the left tubular vertical framework member having at least one lower aperture extending through a sidewall thereof, and the reduced-diameter open upper end portion of the left tubular vertical framework member having at least one upper aperture extending through a sidewall thereof; a right tubular vertical framework member having an open lower end and an opposite reduced-diameter open upper end portion, the open lower end of the right tubular vertical framework member having at least one lower aperture extending through a sidewall thereof, and the reduced-diameter open upper end portion of the right tubular vertical framework member having at least one upper aperture extending through a sidewall thereof; an upper horizontal metal hook-carrying rod spanning said left and right tubular vertical framework members, said upper horizontal hook-carrying rod having left and right ends welded to the respective left and right tubular vertical framework members a distance nominally below their respective reduced-diameter open upper end portions; and a lower horizontal metal hook-carrying rod spanning said left and right tubular vertical framework members, said lower horizontal hook-carrying rod having left and right ends welded to the respective left and right tubular vertical framework members a distance nominally above their respective open lower ends.
 4. The adjustable fish-supporting photographic rack assembly of claim 3, wherein each one of said pair of left and right spaced-apart support stanchions further comprises: an elongated planar stanchion support base plate having forward and rearward ends, an upper surface, and an opposite lower surface, said elongated planar stanchion support base plate having a pair of fastener-receiving openings extending completely therethrough; a tubular vertical support member extending upwardly from the upper surface of said elongated planar stanchion support base plate midway between said forward and rearward ends, the tubular vertical support member terminating at a reduced diameter upper end portion having at least one aperture extending through a sidewall thereof; a forward arcuate support member having a lower end welded to the upper surface of said elongated planar stanchion support base plate, and having an upper end welded to said tubular vertical support member; and a rearward arcuate support member having a lower end welded to the upper surface of said elongated planar stanchion support base plate, and having an upper end welded to said tubular vertical support member.
 5. The adjustable fish-supporting photographic rack assembly of claim 4, further comprising: a first spring leg snap button member seated within the reduced-diameter open upper end portion of the left tubular vertical framework member of said main tubular framework body, such that at least one push button feature of said first spring leg snap button protrudes outwardly through said at least one aperture extending through the reduced diameter upper end portion thereof; a second spring leg snap button member seated within the reduced-diameter open upper end portion of the right tubular vertical framework member of said main tubular framework body, such that at least one push button feature of said second spring leg snap button protrudes outwardly through said at least one aperture extending through the reduced diameter upper end portion thereof; a third spring leg snap button member seated within the reduced-diameter open upper end portion of the tubular vertical support member of said left support stanchion, such that at least one push button feature of said third spring leg snap button protrudes outwardly through said at least one aperture extending through the sidewall of the reduced diameter upper end portion thereof; and a fourth spring leg snap button member seated within the reduced-diameter open upper end portion of the tubular vertical support member of said right support stanchion, such that at least one push button feature of said fourth spring leg snap button protrudes outwardly through said at least one aperture extending through the sidewall of the reduced diameter upper end portion thereof.
 6. The adjustable fish-supporting photographic rack assembly of claim 5, wherein: said open-ended downwardly-extending right vertical length of said inverted U-shaped tubular framework member is sleeved over the reduced-diameter open upper end portion of the right tubular vertical framework member of said main tubular framework body, and said at least one push button feature of said first spring leg snap button member further protrudes outwardly through said at least one aperture extending through the sidewall of said open-ended downwardly-extending right vertical length of said inverted U-shaped tubular framework member; said open-ended downwardly-extending left vertical length of said inverted U-shaped tubular framework member is sleeved over the reduced-diameter open upper end portion of the left tubular vertical framework member of said main tubular framework body, and said at least one push button feature of said second spring leg snap button member further protrudes outwardly through said at least one aperture extending through the sidewall of said open-ended downwardly-extending left vertical length of said inverted U-shaped tubular framework member; said open lower end of the right tubular vertical framework member of said main tubular framework body is sleeved over the reduced-diameter upper end portion of the tubular vertical support member of said right support stanchion, and said at least one push button feature of said third spring leg snap button member further protrudes outwardly through said at least one aperture extending through the sidewall of the lower end of the right tubular vertical framework member of said main tubular framework body; and said open lower end of the left tubular vertical framework member of said main tubular framework body is sleeved over the reduced-diameter upper end portion of the tubular vertical support member of said left support stanchion, and said at least one push button feature of said fourth spring leg snap button member further protrudes outwardly through said at least one aperture extending through the sidewall of the lower end of the left tubular vertical framework member of said main tubular framework body.
 7. The adjustable fish-supporting photographic rack assembly of claim 6 wherein said upper banner portion has a pair of spaced-apart slots extending therethrough, the assembly further comprising: a pair of spaced-apart webbing guides fastened to an underside of the horizontal length of said inverted U-shaped tubular framework member; and a pair of webbing straps sized and shaped for being threaded through the respective pair of spaced-apart slots in the upper banner portion and the respective pair of spaced-apart webbing guides, such that the webbing straps effectively secure the upper banner portion to the inverted U-shaped upper tubular framework member. 